feat(agent): implement mock search tools and tool memory benchmark

- Added LLMMockSearchOp for simulating search operations with configurable complexity- Created SearchToolA, SearchToolB, and SearchToolC with distinct performance profiles- Implemented UseMockSearchOp for intelligent tool selection based on query analysis
- Added test scripts and query datasets for evaluating tool memory effectiveness
- Integrated tool memory service for storing and retrieving tool performance data
- Created documentation for tool memory benchmark testing methodology
- Refactored agent module structure and imports
- Increased summary tool memory recent call count from20 to 30
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jinli.yl 2025-10-16 23:31:50 +08:00
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{
"train": {
"simple": [
"法国的首都是什么?",
"Python 是什么时候首次发布的?",
"地球上有几个大洲?",
"水的沸点是多少度?",
"谁发明了电话?",
"一年有多少天?",
"光速是多少?",
"氧气的化学符号是什么?",
"世界上最高的山峰是哪座?",
"太阳系有几颗行星?",
"地球的半径是多少公里?",
"元素周期表有多少个元素?",
"蒙娜丽莎是谁画的?",
"人类DNA有多少条染色体?",
"HTTP的默认端口号是多少?",
"世界上人口最多的国家是哪个?",
"一公里等于多少米?",
"谁提出了相对论?",
"圆周率π的前两位小数是多少?",
"中国的货币单位是什么?"
],
"moderate": [
"列举Python 3.10的主要特性",
"微服务架构有哪些好处?",
"解释区块链技术的工作原理",
"描述SQL和NoSQL数据库的主要区别",
"软件工程中常见的设计模式有哪些?",
"什么是RESTful API的设计原则?",
"解释Docker容器化技术的优势",
"云计算的三种服务模型是什么?",
"什么是机器学习中的过拟合问题?",
"解释Git中merge和rebase的区别",
"什么是持续集成和持续部署(CI/CD)?",
"描述OSI七层网络模型的作用",
"什么是JWT令牌认证机制?",
"解释虚拟内存的工作原理",
"Kubernetes的主要组件有哪些?",
"什么是函数式编程的核心概念?",
"解释负载均衡的常见策略",
"描述SOLID设计原则的含义",
"什么是异步编程的优势和挑战?",
"解释数据库索引的作用和类型"
],
"complex": [
"比较凯恩斯主义和奥地利学派的经济政策",
"分析可再生能源采用对环境的影响",
"解释量子力学和广义相对论之间的关系",
"讨论人工智能的历史演变过程",
"评估不同机器学习算法在NLP中的有效性",
"分析全球化对发展中国家经济的长期影响",
"比较不同民主制度模型的优缺点",
"探讨气候变化对生物多样性的影响机制",
"研究基因编辑技术的伦理问题和社会影响",
"分析区块链技术在金融领域的应用前景和挑战",
"评估不同神经网络架构在计算机视觉中的表现",
"探讨量子计算对现代密码学的威胁和机遇",
"分析人口老龄化对社会保障体系的影响",
"比较不同哲学流派对人工智能意识的观点",
"研究微生物组与人类健康之间的复杂关系",
"评估碳捕获技术在应对气候变化中的作用",
"分析5G技术对物联网发展的推动作用",
"探讨认知科学与人工智能的交叉研究领域",
"比较不同经济体制下的创新能力差异",
"研究纳米技术在医疗领域的应用和风险"
]
},
"test": {
"simple": [
"日本的首都是什么?",
"Java 语言是哪一年发布的?",
"大西洋有多宽?",
"铁的熔点是多少度?",
"谁发明了汽车?",
"一周有多少小时?",
"声音在空气中的速度是多少?",
"氢气的化学符号是什么?",
"世界上最长的河流是哪条?",
"月球绕地球一周需要多少天?",
"标准大气压是多少帕?",
"人体有多少块骨头?",
"《星空》是谁画的?",
"成年人有多少颗牙齿?",
"HTTPS的默认端口号是多少?",
"世界上面积最大的国家是哪个?",
"一英里等于多少公里?",
"谁发现了万有引力定律?",
"黄金的化学元素符号是什么?",
"美国的货币单位是什么?"
],
"moderate": [
"列举TypeScript 5.0的主要新功能",
"单体架构和微服务架构的区别是什么?",
"解释分布式系统的CAP定理",
"描述关系型数据库的ACID特性",
"前端开发中常用的状态管理方案有哪些?",
"什么是GraphQL的核心优势?",
"解释Kubernetes容器编排的基本概念",
"边缘计算和雾计算有什么区别?",
"什么是神经网络中的梯度消失问题?",
"解释Git中revert和reset的区别",
"什么是DevOps的核心理念?",
"描述TCP/IP协议栈的层次结构",
"什么是OAuth 2.0授权框架?",
"解释进程和线程的本质区别",
"Service Mesh的主要功能是什么?",
"什么是响应式编程的基本原理?",
"解释缓存一致性的常见问题",
"描述DDD领域驱动设计的核心思想",
"什么是并发编程中的死锁问题?",
"解释数据库事务隔离级别的分类"
],
"complex": [
"比较货币主义和供给学派的经济理论差异",
"分析核能发展对能源转型的作用",
"解释弦理论与标准模型之间的联系",
"讨论云计算技术的发展历程和趋势",
"评估深度学习在计算机视觉中的应用效果",
"分析数字化转型对传统产业的影响",
"比较总统制和议会制的政治体制特点",
"探讨海洋酸化对海洋生态系统的影响",
"研究人工智能在医疗诊断中的伦理挑战",
"分析去中心化金融(DeFi)的发展机遇与风险",
"评估Transformer架构在自然语言处理中的优势",
"探讨后量子密码学的研究方向和应用",
"分析城市化进程对资源配置的影响",
"比较实用主义和理想主义对技术伦理的看法",
"研究肠道菌群与神经系统疾病的关联",
"评估直接空气捕获技术的经济可行性",
"分析边缘计算对云计算架构的影响",
"探讨神经语言学与自然语言处理的交叉应用",
"比较计划经济和市场经济的资源配置效率",
"研究量子传感技术在精密测量中的突破"
]
}
}

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from reme_ai import react
from reme_ai import retrieve
from reme_ai import summary
from reme_ai import vector_store
from . import agent
from . import retrieve
from . import summary
from . import vector_store
__version__ = "0.1.9"

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from . import react
from . import tools

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from .llm_mock_search_op import LLMMockSearchOp
from .mock_search_tools import SearchToolA, SearchToolB, SearchToolC
from .use_mock_search_op import UseMockSearchOp

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import asyncio
import json
import random
from typing import Dict, Any
from loguru import logger
from flowllm.context import FlowContext, C
from flowllm.enumeration.role import Role
from flowllm.op.base_async_tool_op import BaseAsyncToolOp
from flowllm.schema.message import Message
from flowllm.schema.tool_call import ToolCall
@C.register_op()
class LLMMockSearchOp(BaseAsyncToolOp):
"""
Mock search operation that uses LLM to classify queries and simulate different scenarios.
Supports three query complexity levels:
- simple: Simple factual queries with short, direct answers
- medium: Medium complexity queries requiring balanced performance
- complex: Complex research queries requiring comprehensive, in-depth results
Each scenario can be configured with:
- success_rate: Probability of successful response (vs "Service busy" error)
- extra_time: Extra sleep time in seconds to simulate latency
- relevance_ratio: Probability of returning relevant results (vs random query results)
"""
file_path: str = __file__
def __init__(self,
llm: str = "qwen3_30b_instruct",
simple_config: Dict[str, Any] = None,
medium_config: Dict[str, Any] = None,
complex_config: Dict[str, Any] = None,
**kwargs):
"""
Initialize the LLM Mock Search Op.
Args:
llm: LLM model name to use for classification and content generation
simple_config: Configuration for simple queries
- success_rate: float (0-1), default 0.95
- extra_time: float (seconds), default 0.5
- relevance_ratio: float (0-1), default 0.98
medium_config: Configuration for medium complexity queries
- success_rate: float (0-1), default 0.85
- extra_time: float (seconds), default 1.0
- relevance_ratio: float (0-1), default 0.90
complex_config: Configuration for complex queries
- success_rate: float (0-1), default 0.70
- extra_time: float (seconds), default 1.5
- relevance_ratio: float (0-1), default 0.80
"""
super().__init__(llm=llm, **kwargs)
# Default configurations for each scenario
self.simple_config = {
"success_rate": 0.95,
"extra_time": 0.5,
"relevance_ratio": 0.98,
"content_length": "short"
}
if simple_config:
self.simple_config.update(simple_config)
self.medium_config = {
"success_rate": 0.85,
"extra_time": 1.0,
"relevance_ratio": 0.90,
"content_length": "medium"
}
if medium_config:
self.medium_config.update(medium_config)
self.complex_config = {
"success_rate": 0.70,
"extra_time": 1.5,
"relevance_ratio": 0.80,
"content_length": "long"
}
if complex_config:
self.complex_config.update(complex_config)
def build_tool_call(self) -> ToolCall:
return ToolCall(**{
"description": "Use search keywords to retrieve relevant information from the internet.",
"input_schema": {
"query": {
"type": "string",
"description": "search keyword or query",
"required": True
}
}
})
async def classify_query(self, query: str) -> str:
"""
Classify the query into simple, medium, or complex using LLM.
Args:
query: The search query to classify
Returns:
Classification result: "simple", "medium", or "complex"
"""
classification_prompt = self.prompt_format(
prompt_name="classification_prompt",
query=query
)
messages = [Message(role=Role.USER, content=classification_prompt)]
response = await self.llm.achat(messages=messages)
classification = response.content.strip().lower()
# Extract classification from response
if "simple" in classification:
return "simple"
elif "complex" in classification:
return "complex"
else:
return "medium"
async def generate_search_result(self, query: str, complexity: str, config: Dict[str, Any]) -> str:
"""
Generate mock search results using LLM based on query complexity.
Args:
query: The search query
complexity: Query complexity level
config: Configuration for this complexity level
Returns:
Generated search result content
"""
content_length = config["content_length"]
generation_prompt = self.prompt_format(
prompt_name="generation_prompt",
query=query,
complexity=complexity,
content_length=content_length
)
messages = [Message(role=Role.USER, content=generation_prompt)]
response = await self.llm.achat(messages=messages)
return response.content
async def generate_random_result(self) -> str:
"""
Generate a random/irrelevant search result to simulate low relevance.
Returns:
Random search result content
"""
random_topics = [
"the history of ancient civilizations",
"modern technology trends",
"climate change impacts",
"space exploration achievements",
"culinary traditions around the world",
"evolution of music genres",
"breakthroughs in medical science",
"architectural wonders",
"wildlife conservation efforts",
"developments in artificial intelligence"
]
random_query = random.choice(random_topics)
generation_prompt = self.prompt_format(
prompt_name="generation_prompt",
query=random_query,
complexity="simple",
content_length="short"
)
messages = [Message(role=Role.USER, content=generation_prompt)]
response = await self.llm.achat(messages=messages)
return f"[Low Relevance Result]\n{response.content}"
async def async_execute(self):
query: str = self.input_dict["query"]
logger.info(f"LLMMockSearchOp processing query: {query}")
# Step 1: Classify the query
complexity = await self.classify_query(query)
logger.info(f"Query classified as: {complexity}")
# Step 2: Get configuration for this complexity
if complexity == "simple":
config = self.simple_config
elif complexity == "medium":
config = self.medium_config
else: # complex
config = self.complex_config
logger.info(f"Using config: {config}")
# Step 3: Simulate extra time delay
extra_time = config["extra_time"]
await asyncio.sleep(extra_time)
logger.info(f"Simulated extra delay: {extra_time:.2f}s")
# Step 4: Check success rate
if random.random() > config["success_rate"]:
error_message = "Search service is currently busy. Please try again later."
logger.warning(f"Simulated failure: {error_message}")
result_dict = {
"success": False,
"content": error_message,
"query": query,
"complexity": complexity
}
self.set_result(json.dumps(result_dict, ensure_ascii=False))
return
# Step 5: Check relevance ratio
if random.random() > config["relevance_ratio"]:
# Generate random/irrelevant result
logger.info("Generating low relevance result")
content = await self.generate_random_result()
result_dict = {
"success": False,
"content": content,
"query": query,
"complexity": complexity
}
else:
# Generate relevant result
logger.info("Generating relevant result")
content = await self.generate_search_result(query, complexity, config)
result_dict = {
"success": True,
"content": content,
"query": query,
"complexity": complexity
}
self.set_result(json.dumps(result_dict, ensure_ascii=False))
async def async_main():
from flowllm.app import FlowLLMApp
async with FlowLLMApp(load_default_config=True):
# Test with different query types
test_queries = [
"What is the capital of France?", # Simple
"How does quantum computing work?", # Medium
"Analyze the impact of artificial intelligence on global economy, employment, and society", # Complex
]
# Custom configurations for testing
custom_simple = {
"success_rate": 1,
"extra_time": 0,
"relevance_ratio": 1
}
custom_medium = {
"success_rate": 1,
"extra_time": 0,
"relevance_ratio": 1
}
custom_complex = {
"success_rate": 1,
"extra_time": 0,
"relevance_ratio": 1
}
op = LLMMockSearchOp(
simple_config=custom_simple,
medium_config=custom_medium,
complex_config=custom_complex
)
for query in test_queries:
print(f"\n{'=' * 80}")
print(f"Testing query: {query}")
print(f"{'=' * 80}")
context = FlowContext(query=query)
await op.async_call(context=context)
result = json.loads(context.llm_mock_search_result)
print(f"Success: {result['success']}")
print(f"Query: {result['query']}")
print(f"Complexity: {result['complexity']}")
print(f"Content:\n{result['content']}")
if __name__ == "__main__":
asyncio.run(async_main())

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classification_prompt: |
You are a query complexity classifier. Analyze the following search query and classify it into one of three categories:
1. **simple** - Simple factual queries that:
- Ask for a single, direct fact
- Have a clear, unambiguous answer
- Require minimal context or explanation
- Examples: "What is the capital of France?", "Who invented the telephone?", "When did World War 2 end?"
2. **medium** - Medium complexity queries that:
- Require some explanation or context
- May involve multiple related facts
- Need balanced depth without being exhaustive
- Examples: "How does photosynthesis work?", "What are the main causes of climate change?", "Explain blockchain technology"
3. **complex** - Complex research queries that:
- Require comprehensive, multi-dimensional analysis
- Involve multiple subtopics or perspectives
- Need in-depth exploration and connections
- Examples: "Analyze the impact of AI on the global economy", "Compare different renewable energy solutions", "What are the geopolitical implications of space exploration?"
Query to classify: {query}
Respond with ONLY one word: simple, medium, or complex.
classification_prompt_zh: |
你是一个查询复杂度分类器。分析以下搜索查询并将其分类为以下三类之一:
1. **simple** - 简单事实查询:
- 询问单一、直接的事实
- 有明确、无歧义的答案
- 需要最少的上下文或解释
- 示例:"法国的首都是什么?"、"谁发明了电话?"、"第二次世界大战何时结束?"
2. **medium** - 中等复杂度查询:
- 需要一些解释或上下文
- 可能涉及多个相关事实
- 需要平衡的深度但不需要详尽无遗
- 示例:"光合作用如何工作?"、"气候变化的主要原因是什么?"、"解释区块链技术"
3. **complex** - 复杂研究查询:
- 需要全面、多维度的分析
- 涉及多个子主题或观点
- 需要深入探索和联系
- 示例:"分析人工智能对全球经济的影响"、"比较不同的可再生能源解决方案"、"太空探索的地缘政治影响是什么?"
要分类的查询:{query}
只用一个词回答:simple、medium 或 complex。
generation_prompt: |
You are a search engine generating mock search results. Generate a {content_length} response for the following query.
Query: {query}
Complexity Level: {complexity}
Instructions based on content length:
- **short**: Provide a concise answer in 1-3 sentences. Be direct and factual.
- **medium**: Provide a balanced answer in 2-4 paragraphs. Include key details and some context.
- **long**: Provide a comprehensive answer in 4-6 paragraphs. Include multiple perspectives, detailed explanations, and relevant context.
Generate the search result content now:
generation_prompt_zh: |
你是一个搜索引擎,正在生成模拟搜索结果。为以下查询生成一个 {content_length} 的响应。
查询:{query}
复杂度级别:{complexity}
根据内容长度的指示:
- **short**(短):提供 1-3 句话的简洁答案。要直接和事实性。
- **medium**(中):提供 2-4 段的平衡答案。包括关键细节和一些上下文。
- **long**(长):提供 4-6 段的全面答案。包括多个角度、详细解释和相关上下文。
现在生成搜索结果内容:

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from flowllm.context import C
from flowllm.schema.tool_call import ToolCall
from reme_ai.agent.tools.llm_mock_search_op import LLMMockSearchOp
@C.register_op()
class SearchToolA(LLMMockSearchOp):
def __init__(self, llm: str = "qwen3_30b_instruct", **kwargs):
# Configure for fast but shallow performance
simple_config = {
"success_rate": 0.95, # High success rate for simple queries
"extra_time": 0.2, # Very fast (0.2-0.5s range)
"relevance_ratio": 0.92, # High relevance
"content_length": "short" # Concise answers
}
medium_config = {
"success_rate": 0.75, # Lower success for medium queries
"extra_time": 0.3, # Still fast
"relevance_ratio": 0.70, # Moderate relevance
"content_length": "short" # Limited depth
}
complex_config = {
"success_rate": 0.50, # Poor success rate for complex queries
"extra_time": 0.4, # Fast but insufficient
"relevance_ratio": 0.50, # Low relevance (often misses key aspects)
"content_length": "short" # Too shallow for complex topics
}
super().__init__(llm=llm,
simple_config=simple_config,
medium_config=medium_config,
complex_config=complex_config,
**kwargs)
def build_tool_call(self) -> ToolCall:
tool_call = super().build_tool_call()
tool_call.description += " Best suited for simple queries."
return tool_call
@C.register_op()
class SearchToolB(LLMMockSearchOp):
def __init__(self, llm: str = "qwen3_30b_instruct", **kwargs):
# Configure for balanced performance
simple_config = {
"success_rate": 0.8, # Very high success rate
"extra_time": 0.8, # Moderate speed (1.0-1.5s range)
"relevance_ratio": 0.8, # High relevance
"content_length": "medium" # More detailed than needed for simple
}
medium_config = {
"success_rate": 0.8, # Excellent success rate
"extra_time": 1.0, # Balanced speed
"relevance_ratio": 0.8, # High relevance
"content_length": "medium" # Perfect depth for medium queries
}
complex_config = {
"success_rate": 0.8, # Good success rate
"extra_time": 1.2, # Still reasonable speed
"relevance_ratio": 0.8, # Decent relevance but not exhaustive
"content_length": "medium" # Covers main points but lacks depth
}
super().__init__(llm=llm,
simple_config=simple_config,
medium_config=medium_config,
complex_config=complex_config,
**kwargs)
def build_tool_call(self) -> ToolCall:
tool_call = super().build_tool_call()
tool_call.description += " Best suited for medium complexity queries."
return tool_call
@C.register_op()
class SearchToolC(LLMMockSearchOp):
def __init__(self, llm: str = "qwen3_30b_instruct", **kwargs):
# Configure for comprehensive but costly performance
simple_config = {
"success_rate": 0.7, # Good but not optimal (over-processing)
"extra_time": 2.5, # Slow (3.0-4.0s range)
"relevance_ratio": 0.7, # High relevance but unnecessary depth
"content_length": "long" # Too detailed for simple queries
}
medium_config = {
"success_rate": 0.7, # High success rate
"extra_time": 2.8, # Slow but thorough
"relevance_ratio": 0.7, # High relevance with extra context
"content_length": "long" # More depth than needed
}
complex_config = {
"success_rate": 0.95, # Excellent success rate
"extra_time": 3.5, # Slow but comprehensive (3.5-5.0s range)
"relevance_ratio": 0.94, # Very high relevance
"content_length": "long" # Perfect depth for complex queries
}
super().__init__(llm=llm,
simple_config=simple_config,
medium_config=medium_config,
complex_config=complex_config,
**kwargs)
def build_tool_call(self) -> ToolCall:
tool_call = super().build_tool_call()
tool_call.description += " Best suited for complex queries."
return tool_call

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"""
Test script for UseMockSearchOp
This script demonstrates how to use the UseMockSearchOp to intelligently
select and execute search tools based on query complexity.
"""
import asyncio
import json
from flowllm.context import FlowContext
from flowllm.app import FlowLLMApp
from reme_ai.agent.tools.use_mock_search_op import UseMockSearchOp
async def test_single_query(op: UseMockSearchOp, query: str):
"""Test a single query and display results."""
print(f"\n{'=' * 100}")
print(f"Testing Query: {query}")
print(f"{'=' * 100}")
context = FlowContext(query=query)
await op.async_call(context=context)
result = json.loads(context.use_mock_search_result)
print(f"\n📊 Results:")
print(f" Selected Tool: {result['selected_tool']}")
print(f" Reasoning: {result['reasoning']}")
print(f" Query Complexity: {result['complexity']}")
print(f" Success: {result['success']}")
print(f"\n📝 Content:")
print(f" {result['content'][:500]}..." if len(result['content']) > 500 else f" {result['content']}")
print(f"\n{'=' * 100}\n")
return result
async def main():
"""Run comprehensive tests of UseMockSearchOp."""
print("\n" + "=" * 100)
print("UseMockSearchOp Test Suite")
print("=" * 100)
print("\nThis test demonstrates the intelligent tool selection capability.")
print("The LLM analyzes each query and selects the most appropriate search tool:\n")
print(" • SearchToolA: Fast & shallow (best for simple factual queries)")
print(" • SearchToolB: Balanced (best for medium complexity queries)")
print(" • SearchToolC: Comprehensive & slow (best for complex research queries)")
print("=" * 100)
async with FlowLLMApp(load_default_config=True):
op = UseMockSearchOp()
# Test cases covering different complexities
test_queries = [
# Simple queries (should select SearchToolA)
{
"query": "What is the capital of France?",
"expected_tool": "SearchToolA",
"description": "Simple factual query"
},
{
"query": "When was Python programming language created?",
"expected_tool": "SearchToolA",
"description": "Simple historical fact"
},
# Medium complexity queries (should select SearchToolB)
{
"query": "How does quantum computing work?",
"expected_tool": "SearchToolB",
"description": "Medium complexity technical explanation"
},
{
"query": "What are the main causes of climate change?",
"expected_tool": "SearchToolB",
"description": "Medium complexity scientific question"
},
# Complex queries (should select SearchToolC)
{
"query": "Analyze the impact of artificial intelligence on global economy, employment, and society",
"expected_tool": "SearchToolC",
"description": "Complex multi-dimensional analysis"
},
{
"query": "Compare and contrast different renewable energy solutions including their environmental impact, cost-effectiveness, and scalability",
"expected_tool": "SearchToolC",
"description": "Complex comparative analysis"
}
]
results = []
correct_selections = 0
for test_case in test_queries:
query = test_case["query"]
expected = test_case["expected_tool"]
description = test_case["description"]
print(f"\n🔍 Test Case: {description}")
print(f" Expected Tool: {expected}")
result = await test_single_query(op, query)
results.append({
"test_case": test_case,
"result": result
})
# Check if the selection was correct
if result["selected_tool"] == expected:
correct_selections += 1
print(f" ✅ Correct tool selected!")
else:
print(f" ⚠️ Different tool selected (this may still be valid)")
# Summary
print("\n" + "=" * 100)
print("Test Summary")
print("=" * 100)
print(f"Total Tests: {len(test_queries)}")
print(f"Expected Matches: {correct_selections}/{len(test_queries)}")
print(f"Success Rate: {correct_selections/len(test_queries)*100:.1f}%")
print("\nNote: Tool selection may vary based on LLM reasoning, and different")
print(" selections don't necessarily indicate errors.")
print("=" * 100)
if __name__ == "__main__":
asyncio.run(main())

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@ -0,0 +1,88 @@
import asyncio
import json
from typing import Dict, Any
from flowllm.op.gallery.task_react_op import tools_schema_to_qwen_prompt
from flowllm.schema.tool_call import ToolCall
from loguru import logger
from flowllm.context import FlowContext, C
from flowllm.enumeration.role import Role
from flowllm.op.base_async_tool_op import BaseAsyncToolOp
from flowllm.schema.message import Message
from reme_ai.agent.tools.mock_search_tools import SearchToolA, SearchToolB, SearchToolC
@C.register_op()
class UseMockSearchOp(BaseAsyncToolOp):
file_path: str = __file__
def __init__(self, llm: str = "qwen3_30b_instruct", **kwargs):
super().__init__(llm=llm, **kwargs)
async def select_tool(self, query: str, tool_ops: list[BaseAsyncToolOp]) -> ToolCall | None:
assistant_message = await self.llm.achat(messages=[Message(role=Role.USER, content=query)],
tools=[x.tool_call for x in tool_ops])
if assistant_message.tool_calls:
return assistant_message.tool_calls[0]
return None
async def async_execute(self):
query: str = self.input_dict["query"]
logger.info(f"query={query}")
tool_ops = [
SearchToolA(),
SearchToolB(),
SearchToolC(),
]
tool_result = await self.select_tool(query, tool_ops)
if tool_result is None:
...
return
for op in tool_ops:
op.tool_call.name == tool_result.name
async def async_main():
"""Test the UseMockSearchOp with different query types."""
from flowllm.app import FlowLLMApp
async with FlowLLMApp(load_default_config=True):
# Test queries of different complexities
test_queries = [
"What is the capital of France?", # Simple - should select SearchToolA
"How does quantum computing work?", # Medium - should select SearchToolB
"Analyze the impact of artificial intelligence on global economy, employment, and society", # Complex - should select SearchToolC
"When was Python programming language created?", # Simple
"Compare different types of renewable energy sources", # Complex
]
op = UseMockSearchOp()
for query in test_queries:
print(f"\n{'=' * 100}")
print(f"Query: {query}")
print(f"{'=' * 100}")
context = FlowContext(query=query)
await op.async_call(context=context)
result = json.loads(context.use_mock_search_result)
print(f"\nSelected Tool: {result['selected_tool']}")
print(f"Reasoning: {result['reasoning']}")
print(f"Complexity: {result['complexity']}")
print(f"Success: {result['success']}")
print(f"\nContent:\n{result['content']}")
print(f"\n{'=' * 100}\n")
if __name__ == "__main__":
asyncio.run(async_main())

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@ -0,0 +1,64 @@
tool_selection_prompt: |
You are an intelligent tool selection assistant. You have access to three different search tools with different characteristics:
**SearchToolA** - Fast but shallow search tool
- Best for: Simple factual queries
- Strengths: Very fast response (0.2-0.5s), high success rate for simple queries (95%)
- Weaknesses: Poor performance on complex queries (50% success rate), limited depth
**SearchToolB** - Balanced search tool
- Best for: Medium complexity queries
- Strengths: Good balance of speed and quality (1.0-1.5s), consistent 80% success rate across all query types
- Weaknesses: May be slower than needed for simple queries, lacks depth for very complex topics
**SearchToolC** - Comprehensive but slow search tool
- Best for: Complex research queries
- Strengths: Excellent for complex queries (95% success rate), comprehensive and detailed results
- Weaknesses: Very slow (3.0-5.0s), overkill for simple queries (70% success rate)
Given the user's query, you need to:
1. Analyze the complexity and requirements of the query
2. Select the most appropriate tool (SearchToolA, SearchToolB, or SearchToolC)
3. Provide the query parameter
User Query: {query}
Respond with a JSON object in the following format:
{{
"selected_tool": "SearchToolA" or "SearchToolB" or "SearchToolC",
"reasoning": "Brief explanation of why this tool was selected",
"query": "The search query to use"
}}
tool_selection_prompt_zh: |
你是一个智能工具选择助手。你可以访问三个具有不同特性的搜索工具:
**SearchToolA** - 快速但浅层的搜索工具
- 最适合:简单的事实查询
- 优势:响应非常快(0.2-0.5秒),简单查询的成功率高(95%)
- 劣势:复杂查询表现不佳(成功率50%),深度有限
**SearchToolB** - 平衡的搜索工具
- 最适合:中等复杂度的查询
- 优势:速度和质量平衡良好(1.0-1.5秒),所有查询类型的成功率一致为80%
- 劣势:对于简单查询可能比需要的慢,对于非常复杂的主题缺乏深度
**SearchToolC** - 全面但慢速的搜索工具
- 最适合:复杂的研究查询
- 优势:对复杂查询效果极佳(成功率95%),结果全面详细
- 劣势:非常慢(3.0-5.0秒),对简单查询来说过度(成功率70%)
给定用户的查询,你需要:
1. 分析查询的复杂度和要求
2. 选择最合适的工具(SearchToolA、SearchToolB 或 SearchToolC)
3. 提供查询参数
用户查询:{query}
用 JSON 对象格式回复:
{{
"selected_tool": "SearchToolA" 或 "SearchToolB" 或 "SearchToolC",
"reasoning": "选择此工具的简要说明",
"query": "要使用的搜索查询"
}}

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@ -16,7 +16,7 @@ class SummaryToolMemoryOp(BaseAsyncOp):
file_path: str = __file__
def __init__(self,
recent_call_count: int = 20,
recent_call_count: int = 30,
summary_sleep_interval: float = 1.0,
**kwargs):
super().__init__(**kwargs)